Goto

Collaborating Authors

 Uncertainty




QWO: Speeding Up Permutation-Based Causal Discovery in LiGAMs

Neural Information Processing Systems

Causal discovery is essential for understanding relationships among variables of interest in many scientific domains. In this paper, we focus on permutation-based methods for learning causal graphs in Linear Gaussian Acyclic Models (LiGAMs), where the permutation encodes a causal ordering of the variables. Existing methods in this setting do not scale due to their high computational complexity.





Supplementary Material of " Designing Robust Transformers 557 using Robust Kernel Density Estimation " 558 A The Non-parametric Regression Perspective of Self-Attention 559

Neural Information Processing Systems

Proposition 1. Assume the robust loss function is non-decreasing in [0, 1 ], (0) = 0 and The proof of Proposition 1 is mainly adapted from the proof in Kim & Scott ( 2012). For any given function: R! We first introduce a few notations that are useful for stating this result. B> (2 +) |O| where is the failure probability. By adapting Lemma 1 in Nguyen et al. ( 2022c) to uniform concentration bound, ImageNet We use the full ImageNet dataset that contains 1 .



Model Shapley: Equitable Model Valuation with Black-box Access Xinyi Xu, Thanh Lam

Neural Information Processing Systems

ML models call for an equitable model valuation method to price them. In particular, we investigate the black-box access setting which allows querying a model (to observe predictions) without disclosing model-specific information (e.g., architecture and parameters). By exploiting a Dirichlet abstraction of a model's predictions, we propose a novel and equitable model valuation method called